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Vol.1 , No. 4, Publication Date: Sep. 22, 2014, Page: 147-151
 coding. The device description is proposed. New concepts of e-bit and e-byte are introduced. The device is operating with spin phases that are read out with a laser beam. The basis of the device is the Spin Hall Effect that stems from large spin-orbit coupling and hyperfine coupling. Together these couplings split the Fermi level into a number of sublevels which finally produce a conductive zone. Decoherence is excluded thanks to selection rules. The device may operate at 100 GHz or higher that is a revolutionary breakthrough in constructing super fast computers of new generations.&picture=http://www.aascit.org/aascit/decorators/img/journal/903.jpg)
| [1] | Alexander Alexander Tulub, Centre for Interdisciplinary Computational and Dynamical Analysis, University of Manchester, Manchester, United Kingdom; School of Biology of Saint-Petersburg State University, Saint-Petersburg, Russia. |
A pair of two polynucleotide sequences wound around the carbon nanotube serves the basis for noninteger (the base of natural logarithm, e) coding. The device description is proposed. New concepts of e-bit and e-byte are introduced. The device is operating with spin phases that are read out with a laser beam. The basis of the device is the Spin Hall Effect that stems from large spin-orbit coupling and hyperfine coupling. Together these couplings split the Fermi level into a number of sublevels which finally produce a conductive zone. Decoherence is excluded thanks to selection rules. The device may operate at 100 GHz or higher that is a revolutionary breakthrough in constructing super fast computers of new generations.
Keywords
Noninteger Coding, Polynucleotide Chains, Spintronics, Information
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